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Reports on Mathematical Physics

Diffusions on Finsler manifolds

P. L. Antonelli, Tomasz Zastawniak

Published Aug 1, 1993• 10 citations
Publisher
DOI
10.1016/0034-4877(93)90065-m

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AbstractA brief review is given of possible Finsler metrics de ned on the SU (2 n )group tangent bundle which may be suitable for quantum circuit optimiza-tion. 1 INTRODUCTION In the Riemannian geometry of quantum computation, a Riemannian hasbeen exploited for the purpose of quantum circuit optimization [1]-[4]. Finslermetrics are a more general class of metrics of which Riemannian metrics area special case based on a quadratic form [5]-[8]. A Finsler need not bequadratic. In fact Bernard Riemann was the rst to consider a basedon a quartic form [9], but he settled on a quadratic form because of its greatersimplicity. Much later, Paul Finsler introduced Finsler geometry in his thesis[10]. The purpose of the present work is to brie‡y review possible Finsler metricsfor quantum circuit optimization [11],[1] . 2 QUANTUM CIRCUIT OPTIMIZATION For a manifold M with a so-called local metric [11], there is a function F (x;y )of coordinates x on M and y on the tangent space manifold TM . One requiresF (x;y ) = 0 for xed x, and F (x;y ) is vanishing for y = 0. F (x;y ) is positivelyhomogeneous of degree 1 in y , namely,F (x;y ) = F (x;y );  > 0; (1)and satis es the triangle inequality in the tangent space variable y , namely,F (x;y
This paper is a study of a generalization of the quantum Riemannian Hamiltonian evolution, previously analyzed by us, in the geometrization of quantum mechanical evolution in a Finsler geometry. We find results with dynamical equations governing the evolution of the trajectories defined by the expectation values of the position. The analysis appears to provide an underlying geometry described by a geodesic equation, with a connection form with a second term which is an essentially quantum effect. These dynamical equations provide a new geometric approach to the quantum evolution where we suggest a definition for “local instability” in the quantum theory.
Abstract In this paper, we study the distributions and the affine distributions of the quantum mechanical system. Also, we discuss the controllability of the quantum mechanical system with the related question concerning the minimum time needed to steer a quantum system from a unitary evolutionU(0) =Iof the unitary propagator to a desired unitary propagatorUf. Furthermore, the paper introduces a description of a k⊕p sub-Finsler manifold with its geodesics, which equivalents to the problem of driving the quantum mechanical system from an arbitrary initial stateU(0) =Ito the target stateUf, some illustrative examples are included. We prove that the Lie groupGon a Finsler symmetric manifoldG/Kcan be decomposed intoKAK.